into the BS program as required by grantfunding, students graduated from the program by 2021. Further, some students that started at theinitiation of the BS MCET program at the author's home institution in 2019 graduated by the Fall2022 term. One such academically talented student that began at the program's initiation andlater chose to become a student worker for the department has detailed her experience with theprogram to present as a coauthor of this work.Further ContextAs a result of defense restructuring in 2014 and 2015, Fort Campbell military base was requiredto cease operations of two of its major divisions [1], [2]. This reduction in personnel removedapproximately 5,800 soldiers from the base, spurring plans to create organizations
Christian Poellabauer, “Fundamentals of Wireless Sensor Networks: Theory and Practice”, Wiley, 2010. 13. Akyildiz, Ian and Mehmet Can Vuran, “Wireless Sensor Networks”, Wiley, 2010. 14. Utah Code and Board of Regent’s Policy Statements Regarding UVU’s Mission and Role: Planning, Budget, and Human Resources, UVU Planning, Budget, and Human Resources, September 21, 2018. 15. 2. Information and statistics provided by the UVU Office of Institutional Research and Information – IRI. 16. Estrada, Kevin, and Devan Hone, “Efficient and Smarter Homes Through Presence-Based Control”, ECE 4800, Capstone Final Report, Spring 2021. 17. Froelich, Jason and Talmage Shumway, “Smart Homes of the Future”, ECE 4800, Capstone
from Clemson University and plans to graduate in May of 2024. Her major is civil engineering with a concentration in water resources. Her primary research interests include transfer students and graduate student development.Dr. Stephanie Cutler, Pennsylvania State University Dr. Stephanie Cutler has degrees in Mechanical Engineering, Industrial and Systems Engineering, and a PhD in Engineering Education from Virginia Tech. She is an Associate Research Professor and the Director of Assessment and Instructional Support in the Leonhard Center at Penn State.Dr. Karen A High, Clemson University Dr. Karen High holds an academic appointment in the Engineering Science and Education department and joint appointments in the
their skills and their reported used of the online resources developed for the multi-course kit.Not all participants used the resources available on the website, so we conducted this analysisover the entire data set and over the 86 students who reported using the web resources. Questionsfrom the survey with significant correlations to the website use are shown in Table 5. We foundthat website usage had a negative correlation with analyzing data, oral communication, andworking with tools to build/fix things. As a result, we plan to expand the content on the website tosupport these topics. The main purpose of the website is to support the multi-course kit across theTable 3: Results of Spearman’s Rank Order Correlation with Self-Reported Usage of
manydisciplines. Aware of this trend, the department of Nuclear Engineering has included within itsstrategic plan the offering of a fusion engineering track.One of the first steps towards achieving this is the curricular design of a course aimed as anoverview of the many engineering aspects of magnetic nuclear fusion systems. Topics such asfusion power calculations, plant energy balance, magnetostatic calculations, microwaveengineering, neutronics and plasma-material interactions are introduced to the students. Topromote student engagement, the course was developed on a highly engaging online platform(TopHat), and the course included experiences aimed at connecting the knowledge gained in classwith real systems. These experiences including coding using
) Perspective use ofcontent within VR/AR space.Assessment of effectiveness planning Initial testing of the technology tools was conducted during EMCH 211 (Statics) officehours by the instructor of class section consisting of 100 students. An invitation for voluntaryparticipation was encouraged and 4 students participated in this preliminary study. Initialassessment included interactive 3D visualization of vector mathematics problems and a momentcouple example shown by the instructor on a computer tablet while explaining the topics. Thequalitative assessment of student’s satisfaction and perceived benefit was conducted via aninformal conversation. This allowed improving the current implementation of content byadjusting the 3D model features
support the developed curriculum, videos were professionally produced by GMU-TV. Thispartnership leverages the engineering and scientific expertise of the research team, professionalproduction skills and equipment of GMU-TV, and on-air talent of student researchers to explainthe content in a manner that is compelling for high school aged learners.The videos were intended to supplement written curricular content related to structuralengineering, aero/hydrodynamics, systems engineering, swarm dynamics, biologically inspiredpropulsion, and to support construction of the actual BLIMPs. At the time of this writing, eight often planned videos are completed, and are freely available via Vimeo, YouTube, and the programwebsite. The content, with links
Paper ID #36577The Influence of Engineering Curriculum Alignment on the Success ofTransfer StudentsDr. Marino Nader, University of Central Florida Marino Nader Marino Nader is an Associate lecturer in the Mechanical and Aerospace Engineering De- partment at the University of Central Florida and has been working on digitizing courses and exams, creating different course modalities. Dr. Nader obtained his B.Eng.,Dr. Harrison N Oonge, University of Central Florida Dr. Harrison N Oonge is an assistant dean for academic planning in the College of Undergraduate Studies at the University of Central Florida (UCF). Harrison
Central Florida Dr. Harrison N Oonge is an assistant dean for academic planning in the College of Undergraduate Studies at the University of Central Florida (UCF). Harrison leads articulation and the curriculum alignment effort of 53 gateway courses between UCF and DirectConnect partner institutions. Prior to joining UCF, Har- rison worked for three years at West Virginia University (WVU) as a project specialist in Undergraduate Academic Affairs and an adjunct professor in WVU’s College of Education and Human Services where he taught undergraduate and graduate-level courses. Harrison holds a B.A. in Education (Kenyatta Uni- versity, Kenya), a M.A. in Special Education (WVU), and Ed.D. in Curriculum and Instruction (WVU
iterative application of the two paradigms: this mimics the action of the pistons of a © American Society for Engineering Education, 2023 2023 ASEE Southeastern Section Conferencetwo-cylinder engine. During this strategy, student-teams will identify a plan on how to conduct theprocess (Organization Tools), they will integrate needed Resources, apply the plan to acquireknowledge (Learning Cycles) and perform the transfer of this knowledge to the challenge (LinearEngineering Sequence, LES) always towards the development of the PIT. In this particularapplication, students use the Foundry as the overall, or “macroscopic” level strategy in the learningand the finer details related to the application
system. The Development team willneed to pilot test the system, and at the end of the first cycle of development, the team will needto have users validate that the system works as anticipated. Finally, near the end of this cycle, thedesign team and content experts verify that the planned scenario meets the specified requirementsfor the target users9,10,11.Speech DatabaseThe ASR modules in the system have to deal with the disordered speech from children, which isnotoriously harder to recognize than the standard speech. One of the barriers to developing ASRmodels that can handle disordered speech is the scarcity of datasets publicly available for trainingand testing, especially for young children. The Speech Exemplar and Evaluation Database (SEED
students selected “expert knowledge” for all categories as well aspre-/post-experience, which is likely not a realistic response to the survey. Thus only four of thesix quantitative results were used to compute an average measure of their knowledge acquisition.The categories and their averages are reported in Table 1. Pre-Experience Average Post-Experience Average A: Modern robotics software frameworks, e.g. the Robotics Operating System middleware (ROS) 1.75 3.25 B: Autonomous robot “sense , plan, act” cycle 1.75 2.75 C: Biometric recognition and biometrics- based
(Appendix). The purpose of thisconnection was to teach the students how to build team dynamics through planning andexecuting a project.While the regular project allowed the students to propose a solution based mainly on functionalassessment, the EM project asked them to consider technical feasibility, customer value andeconomic viability as well. In the process of searching for technical feasibility, the studentslearned how to integrate information from many sources to gain insight. In this project, it wasshown that a carefully designed strut composed of elastic elements can provide the needed springaction (Solid Mechanics connection), and an actuator with a proper orifice can provide adequatedissipation of energy (Fluid Mechanics connection
subsequent classes. None of these students haveentered the ESD course yet, which one author is planning to teach in Spring 2023, when the firstsmall, sample set of Spring 22 Thermo I students should arrive in that course. The Spring 2023semester will also yield more of these Spring 22 Thermo I students in Heat Transfer and ThermoII. In the Fall 2023 semester, significantly more of this Thermo I cohort should be present inESD. The instructor for this ESD has thus far reported that Fall 2022 was the worst semester hehas seen in terms of student preparation and performance, and he should be interacting withstudents who took Thermo I in late 2020 through 2021, during which time the least consistentinstruction in Thermo I was applied. Ideally, more
an engi-neering student mentor. Several of the students, as well as their engineering student mentor, wereparticularly interested in music and partnered with a thirteen-year-old girl with cerebral palsythat loves to listen to music. The girl is confined to her chair, is nonverbal, and struggles withfine motor skills. The team visited the girl and had an opportunity to interview her mother andnurse. Both expressed a desire for the girl to be able to independently control her own music ei-ther through her TV or Alexa.The team brainstormed ideas and developed an ambitious design plan (see Figure 5a) that in-volved a control unit with large assistive buttons connected to a micro-controller based MP3player and speaker that can give eight distinct
for Teaching Project Based Structural Engineering CoursesAbstractThis paper outlines how the author teaches structural design courses, set in context of actualprojects. The framework mimics what occurs in a consulting office, with a focus on helping studentsbecome proficient in what structural engineers use 80% of the time. Rooted in project-basedlearning, students utilize ASCE 7 to calculate loads, and the associated material codes to designbeams, columns, frames, walls, footings, and connections. They utilize structural engineeringsoftware for in-depth analysis and CAD software to prepare framing plans, elevations, and details.Students who are experiencing this framework are preparing a work product on-par with newpracticing engineers.1
included takingan elective CFD course at the same time we started the project. A literature search consisting ofcollecting relevant papers related to the modeling of airflow around wind turbines was conducted.After reading several papers and discussing some of the technical material presented in the papers,we became aware of various adopted approaches to tackling simple and complex problems, whichprovided us with some guidelines for developing a plan to deal with the problem at hand. Initially, we focused on understanding the papers dealing with two-dimensional (2-D) CFDsimulations of flow past airfoils and looking at the capabilities and requirements for various CFDsoftware packages available in the market. Some of them are open-source
inclusive environment, establish goals, plan tasks, and meetobjectives” as a required student outcome supporting the program educational objectives [5].Engineering educators who endeavor to teach inclusive teamwork skills to enable their studentsto work productively and inclusively, however, often discover what organizational theorists havepreviously observed and documented: that teaching people to work productively in diverse teamenvironments is a challenge [1].Historically, many diversity-related educational interventions in Science, Technology,Engineering, and Mathematics (STEM) environments attempt to prepare the marginalized personto cope with the unwelcoming cultures in which they are situated [2]. With NSF support, aresearch team used a
howto integrate STEM disciplines using a biomimicry context with engineering design as highschool students would experience in an integrated lesson. Teachers also collaborated during thesecond week of the PD to create their own integrated STEM units co-taught the next school year.The following school year, researchers, educators, and industry partners collaborated to providea variety of STEM learning opportunities to support these teachers in unit plan implementation.A total of 43 STEM teachers participated in the project, and 20 integrated STEM lessons wereimplemented in 47 STEM classrooms over three years (2016-2019 academic years).TRAILS researchers learned much from the participants of the TRAILS 1.0 program within amidwestern state
years? To what degree have they been exposed to these principles in the context of biomedical engineering? • RQ2: What topics or ethical foundations does the biomedical engineering community (e.g., students, faculty, industry) consider valuable? Which topics are already being taught to students, and what should be integrated into the curriculum? • RQ3: How effective is the “ethics everywhere” approach in integrating ethical reasoning into the current biomedical engineering curriculum? Does incorporating ethical learning broadly into required engineering content-based courses improve ethical reasoning and long-term character development?Planned Methodology and Future ResultsDefining the current state
Administration (Civil, Chemical, Computer Engineering, Electrical, Environmental, Mechanical, Manufacturing, Bioengineer- ing, Material Science), and as Faculty in the engineering department for the past twenty seven years. Industry experience: Consulting; since 1987; Had major or partial role in: I) performing research for industry, DOE and NSF, and II) in several oil industry or government (DOE, DOD, and NSF) proposals. Performed various consulting tasks from USA for several oil companies (Jawaby Oil Service Co., WAHA Oil and Oasis Co., London, England). The responsibilities included production planning, forecasting and reservoir maintenance. This production planning and forecasting consisted of history matching and
-prepared to perform research(1.0) My students were well-prepared to make technical presentations(0.6) My students had sufficient experience in computing to support their workLessons Learned and Planned ActionsThe formative evaluation of Year 1 of REU-PATHWAYS as well as the grant teams revealedsome interesting insights:• There is need for REU participants to feel they belong to the program. We will add a home room meeting every morning in Year 2 and Year 3.• Given that the community college students all commute to campus, a physical space is needed as a “homebase” to provide a communal location for interactions outside of their research labs.ConclusionsBased on the results from this final program evaluation, the REU-PATHWAYS program
effectiveness of validated instructional practices across five diverse institutions. This research will identify ways to support engagement and conceptual learning of diverse populations of students, within the contexts of the educational systems (i.e., institutional contexts, instructor and student histories, beliefs and practices, and the innovation – the CW). 4. Promote and track propagation of the enhanced CW via targeted community building in ME. This will be accomplished through workshops, implementation of an Action Research Fellows Program, collaboration with professional societies in ME and outreach efforts to two-year colleges. 5. Continue to develop and refine a sustainability plan for continued
feedback emphasized Stimulatingthe importance of “hands-on” skills and “reinforcing Course Difficulty 3.53 4.00holes” from previous experiences, motivating theimportance of these courses to bridge topics from Overall 4.59 4.83introductory biology to biotechnology design. InstructorFuture Directions Enhancing the MCTE track at Duke University will provide more BME students with thecurricular excellence and scaffolding to succeed in upper-level advanced electives and futurecareers in the biotechnology sector. We will equip our BME undergraduates with the technical andconceptual expertise to foster an engineering perspective to the world-class multidisciplinaryMCTE field. Our plans emphasize
have lead to real world implementations and/or are being developed with Cornell Technology Licensing. Some of the David’s favorites include: ©American Society for Engineering Education, 2023 Paper ID #38838* Creation of the Cornell Cup USA presented by Intel, now the Cornell Cup – Arm Enabled, internationalembedded systems competition * Cape Canaveral AFS / NASA Kennedy collaboration Minotaur LaunchVehicle Feasibility Study, turning minotaur missiles into low orbit launch vehicles and leading to success-ful launch of the OSR-5 satellite * Unmanned Aircraft Evasive Maneuver Mission Re-planning AlgorithmDevelopment
Transportation Research. His research interests include systems modeling, analysis and control, data analysis and decision support in healthcare, infor- mation systems and engineering education research. His work has been funded by federal organizations including National Science Foundation and Army Office of Research and medical device manufacturing industry. He has taught courses in the areas of systems modeling and performance analysis, information systems design, production planning, facilities design, and systems simulation. He co-authored the 2006 Joint Publishers Book-of-the-Year textbook, Design of Industrial Information Systems, Elsevier.Dr. Renee M. Clark, University of Pittsburgh Renee Clark serves as the Director
engineering and science experiences. The survey was administered by ourexternal evaluator, who also removed identifying information and sorted the data for thefaculty team to examine. In this paper, we analyze student responses by multipledemographic categories: gender, race and ethnicity, and scholarship status (a proxy forsocioeconomic status, given that recipients must meet particular income and financialneed requirements). We did not conduct a statistical analysis due to the small sample size(n=13). In future work, we plan to combine descriptive statistics with qualitative analysisof student interviews.ResultsBelongingnessThe most significant difference in student reporting of undergraduate belongingness wereby socioeconomic status, as students
21 19 20 0 ABET APR/MPR Faculty/Student Industry Academic Strategic Research Engagement Engagement Support Planning Support Inactive Advisory Board (47) Active Advisory Board (22)Figure 1a. Comparison of reasons for an advisory board (question 4) bifurcated between“active” and “inactive” advisory boards (ABET=ABET Accreditation | APR=Academic ProgramReview | MPR=Maintaining Program Relevancy). Reason for Advisory Board (Q4) 100 92
discussions.Even with evidence cited in the vision papers from the NAE and specific disciplines, there stillexists a lack of teaching and learning opportunities to address this gap.BackgroundIncluded in the vision of the University’s strategic plan is the aspiration to impact the worldthrough solutions-oriented approaches to major societal issues. The university recognized a needfor an interdisciplinary approach as many of the solutions lie at the interface between law,policy, and engineering. The University established the Law, Policy and Engineering (LPE)initiative in 2018 to foster collaboration between of the College of Engineering, the Law School,and the School of International Affairs. A result of this initiative was the design and approval tobegin
).The GUI for the students will serve the following functionality: • Student login with their WCU authentication credentials. Then the student can search for a certain company required skills, a certain certification offered by the university for specific skills, and build/maintain a plan for their certification. • Employers’ login through the system with special permissions and authentications. They can post their jobs, but more importantly the skills that they have openings for. • University, a program director, or a university outreach officer can login with their university credentials. They can see what the needed skills for the market are, evaluate and re-evaluate the curriculum to check if the